CN101210492A - Formation fluid sampling apparatus and methods - Google Patents
Formation fluid sampling apparatus and methods Download PDFInfo
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- CN101210492A CN101210492A CNA2007101496220A CN200710149622A CN101210492A CN 101210492 A CN101210492 A CN 101210492A CN A2007101496220 A CNA2007101496220 A CN A2007101496220A CN 200710149622 A CN200710149622 A CN 200710149622A CN 101210492 A CN101210492 A CN 101210492A
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- E—FIXED CONSTRUCTIONS
- E21—EARTH DRILLING; MINING
- E21B—EARTH DRILLING, e.g. DEEP DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
- E21B49/00—Testing the nature of borehole walls; Formation testing; Methods or apparatus for obtaining samples of soil or well fluids, specially adapted to earth drilling or wells
- E21B49/08—Obtaining fluid samples or testing fluids, in boreholes or wells
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- E—FIXED CONSTRUCTIONS
- E21—EARTH DRILLING; MINING
- E21B—EARTH DRILLING, e.g. DEEP DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
- E21B49/00—Testing the nature of borehole walls; Formation testing; Methods or apparatus for obtaining samples of soil or well fluids, specially adapted to earth drilling or wells
- E21B49/08—Obtaining fluid samples or testing fluids, in boreholes or wells
- E21B49/10—Obtaining fluid samples or testing fluids, in boreholes or wells using side-wall fluid samplers or testers
Abstract
The invention relates to a fluid sampling system for retrieving a formation fluid sample from a contaminated zone, wherein, the formation surrounds a well drum which extends along the axle of the well drum, and the formation has original fluids and polluted fluids internally. The system comprises a sample inlet, a first guard inlet arranged near to the sample inlet and separated from the sample inlet at the first direction along the axle of the well drum, and a second guard inlet arranged near to the sample inlet and separated from the sample inlet at the second opposite direction along the axle of the well drum. At least one device for removing the pipeline fluids is connected with the first guard inlet and the second guard inlet for feeding the polluted fluids, and a device for evaluating the pipeline fluids is connected with the sample inlet for collecting the original fluids.
Description
Technical field
The present invention relates generally to the research to subsurface formations, especially relates to the apparatus and method that reduce the pollution of introducing the formation fluid in down-hole formation test and the sampling instrument.
Background technology
Usually well is pierced in underground or the sea bed to obtain the natural mineral reserve of oil, natural gas and other desired substance of trap in the geo-logical terrain of the earth's crust.Usually utilize the drill bit that is connected " drill string " lower end to carry out drilling well.Usually by drill string drilling fluid or " mud " are pumped into drill bit downwards.Drilling fluid lubricating and cooling drill bit, and bring drilling cuttings back ground in the annular space between the drill string and the borehole wall.
In order successfully to carry out oil-gas exploration, must have the information of the subsurface formations that penetrates about pit shaft.For example, the standard formation evaluation aspect relates to the measurement to strata pressure and in-place permeability.These are measured for predictably the production capacity and the exploitation time limit of sub-surface are very crucial.
A kind of technology that is used for measuring stratum and fluid properties comprises " wirerope " instrument of removing is lowered into well to measure formation properties.The wirerope instrument of removing is a kind of survey tool that is suspended on the wirerope, its be arranged on ground control system and be electrically connected.Described instrument is lowered in the well so that measure the formation properties at desired degree of depth place.A kind of typical wirerope instrument of removing can comprise and can bear against on the borehole wall to set up the probe that fluid is communicated with the stratum.Such wirerope instrument that removes usually is called as " formation tester ".Utilize described probe, formation tester is measured the pressure of formation fluid, produces pressure pulse, and this pressure pulse has determined in-place permeability.The formation tester instrument can also be fetched formation fluid sample usually, and this formation fluid sample is transferred into basically that ground is analyzed or is analyzed in the down-hole.
In order to use any wirerope to remove instrument, no matter described instrument is resistivity, degree of porosity testing tool or formation test tool, drill string must be regained from well so that described instrument is lowered in the well.This is called as upwards " tripping out " (" trip " uphole).In addition, also the described wirerope instrument of removing must be lowered into target zone, usually shaft bottom place or near.With the drill string withdrawal and with the combination that the wirerope instrument of removing is lowered to is that measure and needs consuming time spend a few hours, and the time of cost is depended on the degree of depth of pit shaft.Because " tripping out " drilling pipe and the wirerope instrument of removing is lowered to pit shaft needs a large amount of cost and drilling time, therefore only just use wirerope to remove instrument at described information imperative or drill string need be tripped out as bit change more owing to other reason the time.The wirerope formation tester is described in some patent documentations, as U.S. Pat 3,934, and 468, US4,860,581, US4,893,505, US4,936,139 and US5,622,223.
For fear of or will drop to minimum the downtime relevant with tripping out drill string, developed the another kind of technology of measuring formation properties, wherein with instrument and apparatus arrangement near the drill bit of well system.Therefore, during drill-well operation, just can carry out stratum measurement.This area term commonly used is " MWD " (measurement while drilling) and " LWD " (well logging during).Various down-hole MWD and LWD drilling tool are widely applied.
MWD is commonly referred to as and measures bit course and temperature in wellbore and pressure, and LWD refers to and measures formation parameter or character, as resistivity, degree of porosity, permeability, the velocity of sound and other.Real time data such as strata pressure allow drilling company weight and component to drilling mud during drill-well operation to make decision, and drilling speed and the pressure of the drill are maked decision.Though LWD has the different meanings for those of ordinary skills with MWD, the difference between them does not have any substantial connection for the disclosure, so the disclosure is not distinguished the difference between these two terms.
No matter be in wirerope operating period or during drilling well, formation evaluation usually needs formation fluid is incorporated in the downhole tool to test and/or to take a sample.Various sampling equipments typically are called as probe, stretch out to set up fluid with the stratum around the pit shaft from downhole tool to be communicated with and fluid is introduced downhole tool.A kind of typical probe is a circular element, and it stretches out and lean against on the borehole wall from downhole tool.The rubber packer of probe end is used for producing sealing with the borehole wall.Be used for forming the another kind of equipment that seals and be called as dual tubing packing with the borehole wall.Utilize dual tubing packing, thereby two elastomeric ring produce packing about described instrument expanded radially between the part pit shaft.Described ring and the borehole wall form sealing and allow and be introduced in fluid in the pit shaft part of separation and be introduced in the downhole tool.
The mud cake of lining on pit shaft is useful for helping probe and/or dual tubing packing and the borehole wall to form sealing usually.In case sealing forms, by reducing the pressure in the downhole tool, formation fluid will be introduced in the downhole tool by inlet.The example that is used in probe in the downhole tool and/or packer is in U.S. Pat 6,301, and 959, US4,860,581, US4,936,139, US6,585,045, US6,609,568 and US6,719,049 and U.S. Patent application US2004/0000433 in be described.
When remaining on the down-hole, described instrument can carry out reservoir evaluation to the fluid of introducing downhole tool.Exist multiple technologies to be used to carry out various measurements, pretest at present and/or to the sample collection of the fluid that enters downhole tool.Yet have been found that when formation fluid enters downhole tool, all contaminations as mainly with the wellbore fluids that exists from the F form of stratum " invaded zone (invaded zone) " and/or drilling mud can along with formation fluid enter as described in instrument.The invaded zone for lining on the part stratum of cake layer on the pit shaft outside radially, penetrated the stratum of cake layer back at place, invaded zone F.These mud filtrate contamination can influence the quality of measurement and/or formation fluid sample.In addition, owing to need the other time obtain test result and/or represent the sample of formation fluid, pollutant can produce the time delay of costliness in wellbore operations.In addition, these problems can produce wrong and/or useless dummy results.Therefore, need enter the formation fluid enough ' cleaning ' or ' pure ' of downhole tool to carry out Validity Test.In other words, formation fluid should have seldom or not have pollutant.
People attempt the pollutant that enters downhole tool along with formation fluid is eliminated.For example, as US4, described in 951,749, strainer is arranged in the probe to stop pollutant along with formation fluid enters downhole tool.In addition, as US6, shown in 301,959, probe has guard ring to be shifted away from cleaning fluid to make contaminanted fluid when pollutant enters probe.Recently, a kind of sampling core probe has been described among the U.S. Patent application US2006/0042793, its have the annular of stretching out around the sampling detector excircle " protection " and probe, thus try hard to make the contaminanted fluid transfer away from sampling detector.
Although existence is carried out formation evaluation and attempted to handle the technology of pollutant, still there are the mobile needs of when fluid enters and/or pass downhole tool, controlling the fluid that passes downhole tool with the reduction pollutant.Desirable is that this technology can make pollutant shift away from cleaning fluid.
In addition, in using with brill, measurement mechanism is exposed in the limiting force that exists during the drill-well operation.Structure as described in any device that is horizontally through the wall of drill column structure and extends can slacken equally as probe.Therefore, desirable is the design detector assembly, so that not only make minimumly and/or afford to stand with brill power with brill power, and any structure that is produced in drill string by the existence of detector assembly is slackened reduce to minimum degree.
Summary of the invention
A kind of fluid sampling system that is used for obtaining from the stratum formation fluid sample is provided, and described stratum centers on the pit shaft that extends along the pit shaft axis, and has original (virgin) fluid and contaminated fluid in the described stratum.Described system comprises sample inlet, be arranged near the sample inlet and along the first protection inlet that separates with the sample inlet on the first direction of pit shaft axis, be arranged near the sample inlet and along the second protection inlet that separates with the sample inlet on second of the pit shaft axis relative direction.Remove line fluid ground at least one and be connected to the first and second protection inlets and go up carrying contaminated fluid, and be connected on the sample inlet with estimating line fluid with the collection original fluid.
In a kind of modified, sample inlet is arranged on and comprises that sample inlet stretches out on the sample photodetector assembly of mechanism, the described first protection inlet is arranged on to have the first protection inlet and stretches out on the first protection detector assembly of mechanism, and the described second protection inlet is arranged on to have the second protection inlet and stretches out on the second protection detector assembly of mechanism, but wherein sample inlet, the first protection inlet and the second protection inlet stretch out mechanism's independent operation each other.
In a relevant modified, the sample photodetector assembly comprises the sample inlet packer that centers on the sample inlet periphery fully, the first protection detector assembly comprises fully that around the first peripheral protection inlet packer of the first protection inlet the second protection detector assembly comprises fully around the second peripheral protection inlet packer of the second protection inlet.
In another modified, sample inlet packer, the first protection inlet packer and the second protection inlet packer are shaped as has roughly the section of peripheral compound packer continuously.
In a modified, sample photodetector assembly, the first protection detector assembly and the second protection detector assembly are arranged on the stable wing of drilling tool.
In another modified, sample inlet, the first protection inlet and the second protection inlet be whole to be arranged on and to have inlet and stretch out on the simple detector assembly of mechanism.
In another modified, the inlet packer comprises that being arranged on sample inlet and first protects the first packer section between the inlet and be arranged on sample inlet and the second second packer section that protects between the inlet.
In relevant modified, the first and second packer sections also comprise reinforcement material.
In a modified, the external surface of inlet packer has protection channel.
In another modified, the instrument that described system and wirerope remove is shared.
In another modified, described system and drilling tool are shared.
Also disclose a kind of with from the stratum, obtain the detector assembly of the fluid sampling system common application of formation fluid sample, described stratum has original fluid and contaminated fluid around the pit shaft that extends along the pit shaft axis in the described stratum.Detector assembly comprises that inlet stretches out mechanism and is connected to inlet and stretches out sample inlet in the mechanism.The first protection inlet is connected to inlet and stretches out in the mechanism, and the described first protection adjacent setting with sample inlet of inlet also separates with the sample inlet on the first direction that is parallel to the pit shaft axis.The second protection inlet being connected to inlet and stretching out in the mechanism, and the described second protection adjacent setting with sample inlet of inlet also separates being parallel on second relative direction of pit shaft axis to enter the mouth with sample.The inlet packer protects the periphery of inlet fully around sample inlet, the first protection inlet and second.
In relevant modified, the probe packer comprises that being arranged on sample photodetector and first protects the first packer section between the probe and be arranged on sample photodetector and the second second packer section that protects between the probe, and the wherein said first and second packer sections also comprise reinforcement material.
In another modified, the external surface of probe packer has protection channel.
In another modified, protection channel comprise fully center annulus around the sample photodetector periphery, fully around first guard ring part of the first protection probe periphery, fully around second guard ring part of the second protection probe periphery, the first pontes that extends between center annulus and first guard ring part and center annulus and second guard ring partly between second coupling part of extension.
In another modified, protection channel comprises fully around the guard ring part of the first protection probe periphery and at least one first alar part that is connected to the guard ring part and extends from it.
In another modified, protection channel also comprises second alar part that is connected to the guard ring part and extends from it.
In a modified, second protection channel comprises fully around the guard ring part of the second protection probe periphery and at least one first alar part that is connected to the guard ring part and extends from it.
In relevant modified, protection channel is limited by the passage Embedded Division that is connected on the probe packer.
In another modified, the passage Embedded Division is mechanically connected on the probe packer.
In another modified, sample inlet, the first protection inlet and the second protection inlet are pivotably connected to inlet and stretch out in the mechanism.
Disclosed downhole tool is connected on the drill string that is arranged in the pit shaft, and described pit shaft passes subsurface formations along the pit shaft axis.Described instrument comprises having at least one stable wing that limits the wing axis, be contained in the inlet of stablize in the wing and stretch out mechanism and be connected to enter the mouth and stretch out the drill collar of the detector assembly in the mechanism.Described detector assembly comprises the sample inlet with oral area, and described oral area has first overall size that is parallel to the wing axis and perpendicular to second overall size of wing axis, wherein first overall size is greater than second overall size.Interior packer is fully around the sample inlet periphery, and the protection inlet extends around interior packer is peripheral fully, and external packer is peripheral around the protection inlet fully.
In a modified, detector assembly is pivotably connected to inlet and stretches out in the mechanism.
In another modified, described oral area has the section profile of substantially elliptical, and described section profile has first overall size that comprises major axis and second overall size that comprises minor axis.
In another modified, second overall size is less than about 3.5 inches.
Description of drawings
In order to understand disclosed method and apparatus more all sidedly, in conjunction with the accompanying drawings embodiment is more at large described, wherein:
Fig. 1 is the cut-away section schematic diagram with downhole tool of detector assembly of the present invention, and wherein said downhole tool is a down-hole equipment;
Fig. 2 is the cut-away section schematic diagram with downhole tool of detector assembly of the present invention, and wherein said downhole tool is that wirerope removes instrument;
Fig. 3 is an embodiment according to the formation fluid sampling system of disclosure making;
Fig. 4 is the constructed profile of formation fluid sampling shown in Figure 3 system;
Fig. 5 and 6 schematically show be used for Fig. 3 the similar selectable detector arrangement of formation fluid sampling system;
Fig. 7 shows selectable formation fluid sampling system;
Fig. 8 schematically shows the fluid that utilizes during the formation fluid sampling system shown in Figure 7 and flows;
Fig. 9 shows another selectable formation fluid sampling system;
Figure 10 is the detailed view that is used in the packer in the formation fluid sampling shown in Figure 9 system;
Figure 11 is the plan view according to another embodiment of the formation fluid sampling system of disclosure making;
The cross section view of the formation fluid sampling system that Figure 12 is done for the line A-A in Figure 11;
Figure 13 is the plan view according to the another embodiment of the formation fluid sampling system of disclosure making;
Figure 14 is the schematic diagram that the drill collar that is contained in inclination is stablized the formation fluid sampling system in the wing;
Figure 15 schematically shows and is contained in vertical drill collar and stablizes the shown in Figure 14 selectable formation fluid sampling system that is similar in the wing;
Figure 16 is the amplification plan view of formation fluid sampling shown in Figure 15 system;
Figure 17 A and 17B schematically show the formation fluid sampling system with pivotable detector assembly that makes according to the disclosure; And
Figure 18 schematically shows another embodiment of detector assembly, and wherein said inlet is elongated to be used on the stable wing of drill collar being suitable for.
Should be appreciated that described accompanying drawing may not draw in proportion, and the disclosed embodiments are schematically illustrated and partial view sometimes.Under specific circumstances, for understanding the unnecessary detailed content of disclosed method and apparatus or providing the detailed content of other details that is difficult to imagine to be omitted.Certainly should be appreciated that the certain embodiments of the disclosure shown in being not limited to.
The specific embodiment
The disclosure relates to following detector assembly and structure, and this detector assembly and structure can together be used with downhole tool in drilling environment or wirerope environment.Apparatus and method disclosed herein have reduced the pollution of formation fluid sample.In some modifieds, the disclosure relates to the relative position of the exercisable detector assembly of a plurality of independences.In one or more other modified, the fluid sampling system comprises the single component with a plurality of probes.In addition, the invention discloses a kind of being particularly useful for the panel detector structure that bores application.
Term " with boring formation evaluation " refers to the various samplings and the test operation that can carry out in drilling process, as sample collection, fluid find time, pretest, pressure test, fluid analysis, resistivity measurement and other.Should be pointed out that " with boring formation evaluation " is not a definiteness and measures when passing the stratum in that drill bit is actual.For example, the collection of sample and to find time usually be to carry out between of short duration down-time period in drilling process.That is to say that the rotation of rotary head stops for the time being so that carry out described measurement.In case finishing, described measurement can continue drilling well.Even described in certain embodiments measurement is only carried out after drilling well stops, described measurement still can be carried out under situation about drill string not being tripped out.
In exemplary embodiment, carry by downhole tool according to detector assembly of the present disclosure, remove instrument 10 ' as the wirerope among the drilling tool among Fig. 1 10 or Fig. 2.Detector assembly also can be used on other and is suitable for fluid is introduced in the downhole tool in it, as coiled tubing, well casing (casing drilling) and other various downhole tools.
Thereby Fig. 1 shows the down-hole equipment 10 that stretches out and enter formation pit shaft 14 stratum from rig 5.Pit shaft penetrates the subsurface formations F that contains formation fluid 21.Down-hole equipment is suspended on the rig by the drill collar 11 that one or more constitutes drill string 28." mud " is pumped through drill string 28 and flows out from the drill bit 30 of drilling tool 10.Mud is pumped and passes pit shaft and turn back to ground to filter and cycling and reutilization.When mud passed through pit shaft, it had formed mud layer or mud cake 15 along pit shaft 17.Thereby part mud infiltrates the invaded zone 25 that the stratum forms stratum F.
In embodiment as shown in the figure, drilling tool 10 has probe 26, and probe 26 is used for setting up with stratum F that fluid is communicated with and according to the direction shown in the arrow fluid 21 being introduced downhole tools.As shown in Figure 1, probe be positioned at drilling tool stabilizer wing (stabilizer blade) thus 23 and extend thus and engage with the borehole wall.Stabilizer wing 23 comprises one or more wings, and described wing contacts with the borehole wall with restriction drill bit 30 and rocks.Thereby drill string is easy to " rocking " when rotated departs from the axis of pit shaft 17 and make drill bit change direction.Advantageously, the stabilizer wing contacts with the borehole wall, if thereby probe be arranged in the stabilizer wing 23, probe needs less extension just can set up fluid with formation fluid to be communicated with so.
Can measure to determine some parameter, as pretest and/or pressure parameter the fluid that utilizes probe 26 to introduce downhole tool.In addition, downhole tool can have equipment as sample room and so on so that be collected in the fluid sample that fetch on ground.Spare piston 88 also can be used for assisting the power that applies to lean against on the borehole wall to promote drilling tool and/or probe.Drilling tool can be various drilling tools, as measurement while drilling (" MWD "), well logging during (" LWD "), casing drilling or other system.Be described in the U.S. Patent application that a kind of exemplary drilling tool that can be used for carrying out various downhole testings is 10/707,152 at application number, the applying date is on November 24th, 2003, the full content of this application is introduced here as a reference.
Down-hole equipment 10 can take out and utilize wirerope 18 that wirerope is removed instrument 10 ' (Fig. 2) from pit shaft and be lowered in the pit shaft.A kind of exemplary wirerope that can take a sample and/or test removes instrument in U.S. Pat 4,936, is described in 139 and US4,860,581, and the full content of these two pieces of patents is introduced here as a reference.Downhole tool 10 ' is arranged in the pit shaft 14 and utilizes the conventional wirerope 18 of rig 5 belows or conduit or conventional oil pipe or coiled tubing are suspended in the pit shaft.Shown drilling tool 10 ' has various modules and/or parts 12, and including, but not limited to probe 26 ', probe 26 ' is used for setting up with stratum F that fluid is communicated with and according to direction shown in the arrow fluid 21 being introduced described downhole tool.Spare piston 8 can be used for further promoting downhole tool to be made it lean against on the borehole wall and assists probe to engage with the borehole wall.Drilling tool illustrated in figures 1 and 2 is (as shown in Figure 1) of modular (as shown in Figure 2) or integral type, or their combination.
Referring to Fig. 3, detector assembly 30 is recessed in the stable wing 32 of drill collar 34.Detector assembly 30 comprises sample inlet 36, the first protection inlet, the 38 and second protection inlet 40.Each inlet 36,38,40 is arranged on the direction of the longitudinal axis that is transverse to drill collar 34 and is in retracted position usually and 36,38,40 is contained in one or more holes of stablizing in the wing 32 so that enter the mouth.A kind of special-purpose probe stretches out mechanism (as U.S. Pat 6,230,557, US4,860.581 and US4, the hydraulic mechanism described in 936,139, these patents transfer the application's assignee jointly, and the full content of these patents is introduced here as a reference) be operably connected on each inlet 36,38,40 so that optionally with independently relevant inlet is moved to extended position.At extended position, inlet 36,38,40 extended holes are outer so that make described inlet be in the optimum position that contacts the borehole wall 17.Spare piston 42a-c is exsertile so that towards stratum F mobile detector assembly 30.
Though exemplary embodiment has been described exsertile inlet, be appreciated that described inlet can not be extended thereby about the position relative fixed of drill collar 34.In addition, detector assembly 30 can comprise protector, thereby this protector provides mechanical protection and provides mechanical protection to prevent that mud is subjected to the erosion of mobile mud to mud cake to inlet in the drilling well and/or the operating period that pulls out of hole.A kind of such protector is in U.S. Pat 6,729, is described in 399, and this patent is assigned usually to the application's assignee, and its full content is introduced here as a reference.
As shown in Figure 4, the fluid line that is connected on the inlet is used to make discarded fluid or cleaning fluid to pass through.In an illustrated embodiment, sample inlet 36 by suction line 54a fluid be connected to and estimate pipeline 52.By-pass line 56a sample photodetector 38 with the cleaning pipeline 58 between fluid be communicated with.The first protection inlet 38 also is connected to by suction line 54b and by-pass line 56b fluid ground respectively and estimates and clean pipeline 52,58.Be that second protection goes into 40 by suction line 54c and by-pass line 56c and evaluation and the connection of cleaning pipeline 52,58 fluids similarly.Valve 60a-f is arranged in inlet and the by-pass line 54,56 with directed flow direction of flow as required and estimates and clean pipeline 52,58.Fluid sensor, as optical fluid analyzer 46a, 46b links to each other with pipeline 52,58 to provide the feature feedback or about the out of Memory of the fluid that passes pipeline.
Each inlet 36,38,40 of detector assembly 30 comprises and is used for the packer that seals with the borehole wall 17.Shown in Fig. 3 and 4, sample inlet packer 80 is provided, this packer centers on the periphery of sample inlet 36 fully.Be that the first and second protection inlet packers 82,84 center on the periphery of the first and second protection inlets 38,40 respectively fully similarly.
Under the situation that does not depart from disclosure scope, can use various selectable entrance structures and combination.For example, need not provide the inlet (shown in Fig. 3 and 4) of vertical arrangement, sample inlet 36 departs from the first and second protection inlets 38,40 and horizontal (as shown in Figure 5).In this embodiment, sample inlet 36 stretches out from first side of drill collar 11, and first and two protection inlets, 38,40 second opposite sides from drill collar 11 stretch out.This structure is for preventing that filtrate from arriving sample inlet 36 and remaining effectively, and this is because the first and second protection inlets 38,40 are removed fluid on every side from each inlet the subterranean formation zone in the endless belt.Selectively be to provide other protection inlet 86, as shown in Figure 6.
Fig. 7 and 8 shows a kind of selectable detector assembly embodiment, and it has a plurality of by singly stretching out the inlet that mechanism drives.Detector assembly shown in the figure 100 is recessed in the stabilizer wing 101 of drill collar 103.Detector assembly 100 comprises sample inlet 102, the first protection inlet, 104, the second protection inlet 106.Inlet 102,104,106 is operably connected to and singly stretches out in the mechanism, and the described mechanism of singly stretching out releases and regain probe simultaneously, perhaps selectively is that described inlet can be not extended.Described detector assembly 100 also comprises single packer 110, and it is centered around the periphery of sample inlet 102, the first protection inlet, the 104 and second protection inlet 106 fully.Inlet 102,104,106 protects sample inlet 102 alignment that enter the mouth between 104,106 with first and second usually.Spare piston 107 is used for assembly 100 is positioned near the borehole wall 17.
In operation, the drill collar 101 that carries detector assembly 100 is positioned in the pit shaft 14, as shown in Figure 8.In order to carry out test, by with 102,104,106 stretch out drill collar 101 or spare piston 107 stretched out or with the both stretch out form sealing up to the packer 110 contact boreholes wall 117 or with mud cake 15 till, thereby detector assembly 100 is arranged near the borehole wall 17.As mentioned above, the logical borehole wall 17 that passes of drilling mud infiltrates the stratum and form invaded zone 25 around the borehole wall 14, and stays 15 layers of the mud cake of lining on the borehole wall 17.Invaded zone 25 contains mud and other pollutes the wellbore fluids on stratum (comprise and contain the stratum F of layer fluid 114 cleanly) on every side.As shown in Figure 8, will will remove in the urgent zone of enclosing inlet 102,104,106 of contaminated formation fluid the operation of detector assembly 100.During operation, filtrate can continue across invaded zone 25 axially migration up or down.Before arriving sample inlet 102, the filtrate of this any migration can be removed by the first and second protection inlets 104,106, thereby make sample inlet 102 obtain the formation fluid sample of cleaning basically.
Fig. 9 and Figure 10 show the selected embodiment of the simple detector assembly with a plurality of inlets.Shown detector assembly 120 is connected on the drill collar 122.Detector assembly 120 comprises sample inlet 124, the first protection inlet, 126, the second protection inlet 128.Has the exterior section 132 that is arranged on sample inlet 124, the first protection inlet, the 126 and second protection inlet, 128 outsides when packer 130.Packer 130 also is included in first interior zone 134 that extends between the sample inlet 124 and the first protection inlet 126 and second interior zone 136 that extends between the sample inlet 124 and the second protection inlet 128.In an illustrated embodiment, the excircle of inlet 124,126,128 has formed the ellipse that is interrupted by the first and second packer sections 134,136.In this layout, inlet 124,126,128 is more close vertical, can improve the cleannes of the formation fluid sample of being fetched by sample photodetector 124 like this.
Can reinforce the first and second packer sections 134,136 to improve their resistance to compression difference abilities.A kind of reinforcement material as metal, composite material or other high-strength material, can be moulded to first and second sections 134,136 of rubber packer 130.First and second sections 134,136 have prevented the vertical sample inlet 124 that enters of filtrate.When the left side of sample inlet 124 and right side are divided relative when not protected; have been found that in case be discharged from the starting stage; circumferential area around the sample inlet 124 will keep the filtrate of cleaning relatively; and the first and second protection inlets 126,128 have prevented to enter the vertical migration that the stratum should the zone.In addition, sample inlet 124 structures shown in Fig. 9 and 10 allow the part of these not protected sides very little, thereby also make the filtrate of being polluted by filtrate or formation fluid arrive the possibility minimum of sample inlet 124.Though shown inlet 124,126,128 has the shape that adapts to oval packer exterior section 132, is appreciated that under the situation that does not depart from disclosure scope and can uses other shape.
Figure 11 and 12 shows another kind of modified, there is shown a kind of detector assembly 150 that is formed on the protection channel 152 on packer 154 external surfaces that has.Detector assembly 150 comprises sample inlet 156, the first protection inlet, the 158 and second protection inlet 160.Packer 154 is centered around the periphery of inlet 156,158,160 fully.Protection channel 152 forms packer 154 external surface upper grooves.Protection channel 152 comprise with sample enter the mouth that 156 peripheries are separated and fully around the center annulus 162 of sample inlet 156 peripheries, with the peripheral adjacent of the first protection inlet 158 and fully around the first guard ring part 164 of the first protection inlet, 158 peripheries, with the peripheral adjacent of the second protection inlet 160 and fully around the second second guard ring part 166 of protecting 160 peripheries that enter the mouth.The first pontes 168 extends between the center annulus 162 and the first guard ring part 164, and extend between the center annulus 162 and the second guard ring part 166 second coupling part 170.
In an illustrated embodiment, protection channel 152 is formed in the passage Embedded Division 172 that is connected on the packer 154.For example, passage Embedded Division 172 mechanically is connected on the packer 154, for example is contained in protuberance 174 in the anchor groove 176 by formation, connects so that form dovetail shaped, preferably as shown in figure 12.Passage Embedded Division 172 can be made of so that better adapt to the borehole wall low-modulus material (as titanium alloy).Be appreciated that other low-modulus material that under the situation that does not break away from disclosure scope, can use except titanium alloy.Described passage can be limited by structural pipeline shown in Figure 12, perhaps can be limited by the porous material with overall flow passage.
Figure 13 illustrates the assembly selected that uses different protection channel designs.Protection detector assembly 180 comprises sample inlet 182, the first protection inlet, the 184 and second protection inlet 186.Packer 188 protects the periphery of inlet 182,184,186 fully around sample inlet, first and second.Sample inlet passage 190 is arranged on the external surface of packer 188, its contiguous periphery that also centers on sample inlet 182 fully.First protection channel 191 comprises the first guard ring part 192, its contiguous periphery that also centers on the first protection inlet 184 fully.First and second wings 193,194 are communicated with the first guard ring part, 192 fluids and outwards extend laterally from the opposite side of the first guard ring part 192.Sample inlet 182 is stretched in 193,194 bendings of first and second alar parts, as shown in figure 13.Second protection channel 195 comprises the second guard ring part 196, its contiguous periphery that also centers on the second protection inlet 186 fully.Second protection channel 195 comprises first and second alar parts 197,198, and these two parts are communicated with the second guard ring part, 196 fluids and extend from it.Sample inlet 182 is stretched in 197, the 198 same bendings of first and second wings.
Detector assembly can select embodiment shown in Figure 14 and 15 in addition.Figure 14 shows the detector assembly 200 on the stabilizer wing 202 that is arranged on probe/drill collar 204, and drill collar 204 also comprises stabilizer wing 202a.Has a certain angle between the vertical axis of probe/stabilizer wing 202 and drill collar 204.In Figure 15, detector assembly 210 is connected on the probe/stabilizer wing 212 of drill collar 214, and wherein, probe/stabilizer wing 212 is arranged essentially parallel to the vertical axis of drill collar 214.Drill collar 214 also comprises other stabilizer wing 212a.
Figure 16 shows detector assembly 210 in further detail, and detector assembly 210 comprises sample inlet 220, the first protection inlet, the 222 and second protection inlet 224.Similar with aforesaid embodiment, inlet 220,222,224 is vertical alignment basically, and sample inlet 220 is arranged between the first and second guiding probes 222,224.
Compound packer 226 protects the periphery of inlet 224 fully around sample inlet 220, the first protection inlet 222 and second.Compound packer 226 can comprise the section that can independently stretch out or regain each inlet 220,222,224.In an illustrated embodiment, compound packer 226 comprises sample inlet section 230, the first protection entrance zone, threshold zone 232 and the second protection entrance zone, threshold zone 234.In order to drive each probe independently, sample inlet stretches out device and is operably connected to sample inlet 220, the first protection inlet and stretches out device and be operably connected to the first protection inlet, 222, the second protection inlets and stretch out device and be operably connected to the second protection inlet 224.Described section 230,232,234 is formalized so that compound packer 226 has continuous basically periphery.In an illustrated embodiment, described periphery is oval.
Sample inlet 220 is formalized so that make the fluid of extraction maximum and minimum from the fluid of stratum extraction on vertical direction in a circumferential direction.In an illustrated embodiment, sample inlet 220 is oval, and described ellipse has the major axis that extends and extends and be parallel to the minor axis of pit shaft axis in vertical direction roughly on general horizontal direction.Though what illustrate is oval, can use other shape under the situation that does not break away from disclosure scope, as elongated rectangle.
Figure 17 A and 17B show the selected embodiment of sample photodetector assembly, and it can rotate so that meet borehole wall profile, thereby form sealing more reliably between them.Be appreciated that the borehole wall 17 always is not parallel to the axis 250 of downhole tool.Therefore, the packer of detector assembly can with pit shaft at angle, thereby reduce the ability that forms abundant sealing with the borehole wall.Shown in Figure 16 A, detector assembly 252 stretches out device 256 by probe and is connected on the drill collar 254.Detector assembly 252 comprises supporting plate 258, and supporting plate 258 has the carriage 260 that is connected thereto.Carriage 260 is pivotably connected to the end that probe stretches out device 256.Supporting plate 258 has packer 264, sample inlet 266, the first protection inlet, the 268 and second protection inlet 270.Probe stretches out device 256 can be taken as driving cylinder, and it is operably connected to power source, as hydraulic fluid source 272.
In operation, probe stretches out device 256 and can be used for detector assembly 256 is moved to extended position from retrieving position, described retrieving position is that described assembly is with the borehole wall 17 position spaced (shown in Figure 17 A), described extended position be described assembly with the position (shown in Figure 17 B) that the borehole wall 17 engages stretch out pivotable between device 256 and the supporting plate 258 be connected allow packer 264 with 17 one-tenth complementary relationships inclinations of the borehole wall, thereby seal the borehole wall more reliably.
Figure 18 shows another embodiment of detector assembly 300.It has elongated profile, to stablize the fluid stream that improvement is provided when wing 302 common uses have size restrictions with drilling tool (as drill collar 307).Detector assembly 300 is contained in the cavity 309 in the wing 302, so that detector assembly 300 can be hidden during drill-well operation.Stretching out mechanism's (not shown) is used for thereby described assembly 300 is stretched out to contact the execution sampling operation with the borehole wall.
The increase that is provided along with oral area 306 connected region, between packer 308,312 and stratum, form enough sealings difficulty more that becomes, this is because the contact area that has increased more may run into out-of-flatness or other surface of stratum deflection.Can use elongated profile in conjunction with the described probe that pivots of Figure 17 A and 17B above so that surface of stratum irregular produce influence minimum.
Although only certain embodiments is described hereinbefore, other optional embodiment and modified are conspicuous for a person skilled in the art.Within these and other optional embodiment that be considered to be equal to and the purport and scope that fall into the disclosure and the accompanying claims book with the present invention.
Claims (15)
1. fluid sampling system that is used for obtaining formation fluid sample from the stratum, described stratum is around the pit shaft that extends along the pit shaft axis, and has original fluid and contaminated fluid in the described stratum, and described system comprises:
Sample inlet;
Be arranged near the sample inlet and along the first protection inlet that separates with the sample inlet on the first direction of pit shaft axis;
Be arranged near the sample inlet and along the second protection inlet that separates with the sample inlet on second of the pit shaft axis relative direction;
Remove pipeline at least one, be connected to the first and second protection inlets its fluid and go up to carry contaminated fluid; With
Estimate pipeline, be connected on the sample inlet its fluid to collect original fluid.
2. fluid sampling as claimed in claim 1 system, wherein said sample inlet is arranged on and comprises that sample inlet stretches out on the sample inlet assembly of mechanism, the first protection inlet is arranged on to have the first protection inlet and stretches out on the first protection intake assembly of mechanism, and the second protection inlet is arranged on to have the second protection inlet and stretches out on the second protection intake assembly of mechanism, but wherein said sample inlet, the first protection inlet and the second protection inlet stretch out mechanism's independent operation each other.
3. fluid sampling as claimed in claim 2 system, wherein said sample photodetector assembly comprises the sample inlet packer that centers on the sample inlet periphery fully, the first protection intake assembly comprises fully that around the first peripheral protection inlet packer of the first protection inlet the second protection intake assembly comprises fully around the second peripheral protection inlet packer of the second protection inlet.
4. fluid sampling as claimed in claim 3 system, wherein said sample inlet packer, the first protection inlet packer and the second protection inlet packer are separately as having roughly continuously the inlet packer section of peripheral compound packer, the first protection packer section and the second protection packer section.
5. fluid sampling as claimed in claim 2 system, wherein said sample inlet assembly has certain diameter, and the described first and second protection intake assemblies vertically separate with the sample intake assembly and are substantially equal to or greater than a segment distance of described diameter.
6. fluid sampling as claimed in claim 2 system, at least one of wherein protecting in the intake assembly has certain diameter, and described at least one protection intake assembly vertically separates with the sample intake assembly and is substantially equal to or greater than a segment distance of described diameter.
7. fluid sampling as claimed in claim 2 system, wherein said sample inlet assembly, the first protection intake assembly and the second protection intake assembly are arranged on the stable wing of drilling tool.
8. fluid sampling as claimed in claim 2 system, wherein said sample inlet is certain orientation angles ground and departs from the first and second protection inlets.
9. fluid sampling as claimed in claim 1 system, wherein said sample inlet, the first protection inlet and the second protection inlet be whole to be arranged on and to have inlet and stretch out on the simple detector assembly of mechanism.
10. fluid sampling as claimed in claim 1 system, wherein said sample inlet has oval-shaped section profile, and described oval-shaped profile profile has perpendicular to the major axis of pit shaft axis and is parallel to the minor axis of pit shaft axis.
11. fluid sampling as claimed in claim 1 system, wherein said system and wirerope remove common a use in instrument and the drilling tool.
12. a downhole tool that is connected on the drill string that is arranged in the pit shaft, described pit shaft passes subsurface formations along the pit shaft axis, and described instrument comprises:
Drill collar, it has at least one stable wing that limits the wing axis;
Be contained in the inlet of stablizing in the wing and stretch out mechanism; With
Being connected to inlet and stretching out detector assembly in the mechanism, described detector assembly comprises:
Sample inlet with oral area, described oral area have first overall size that is parallel to the wing axis and perpendicular to second overall size of wing axis, wherein first overall size is greater than second overall size;
Interior packer, it is fully around the sample inlet periphery;
The protection inlet, it extends around interior packer is peripheral fully; And
External packer, it is peripheral around the protection inlet fully.
13. being pivotably connected to inlet, downhole tool as claimed in claim 12, wherein said detector assembly stretch out in the mechanism.
14. downhole tool as claimed in claim 12, wherein said oral area has the section profile of substantially elliptical, and described section profile has first overall size that comprises major axis and second overall size that comprises minor axis.
15. downhole tool as claimed in claim 12, wherein said second overall size is less than about 3.5 inches.
Applications Claiming Priority (3)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US11/616,583 US7654321B2 (en) | 2006-12-27 | 2006-12-27 | Formation fluid sampling apparatus and methods |
| US11/616,583 | 2006-12-27 | ||
| US11/616583 | 2006-12-27 |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN101210492A true CN101210492A (en) | 2008-07-02 |
| CN101210492B CN101210492B (en) | 2013-05-01 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN2007101496220A Expired - Fee Related CN101210492B (en) | 2006-12-27 | 2007-09-10 | Formation fluid sampling apparatus and methods |
Country Status (8)
| Country | Link |
|---|---|
| US (2) | US7654321B2 (en) |
| CN (1) | CN101210492B (en) |
| CA (1) | CA2594461C (en) |
| DE (1) | DE102007036410A1 (en) |
| FR (2) | FR2910926A1 (en) |
| GB (2) | GB2459793B (en) |
| MX (1) | MX2007009330A (en) |
| RU (1) | RU2436951C2 (en) |
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-
2006
- 2006-12-27 US US11/616,583 patent/US7654321B2/en active Active
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2007
- 2007-06-26 GB GB0913605A patent/GB2459793B/en not_active Expired - Fee Related
- 2007-06-26 GB GB0712336A patent/GB2445204B/en not_active Expired - Fee Related
- 2007-07-23 CA CA2594461A patent/CA2594461C/en not_active Expired - Fee Related
- 2007-07-24 RU RU2007128524/03A patent/RU2436951C2/en not_active IP Right Cessation
- 2007-08-02 DE DE102007036410A patent/DE102007036410A1/en not_active Withdrawn
- 2007-08-02 MX MX2007009330A patent/MX2007009330A/en active IP Right Grant
- 2007-09-10 CN CN2007101496220A patent/CN101210492B/en not_active Expired - Fee Related
- 2007-11-29 FR FR0759411A patent/FR2910926A1/en active Pending
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2008
- 2008-03-14 FR FR0851680A patent/FR2911630A1/en active Pending
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2009
- 2009-09-11 US US12/558,060 patent/US7841406B2/en not_active Expired - Fee Related
Cited By (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101929335A (en) * | 2009-06-18 | 2010-12-29 | 普拉德研究及开发股份有限公司 | The concentrated sampling of formation fluid |
| CN101929335B (en) * | 2009-06-18 | 2016-02-03 | 普拉德研究及开发股份有限公司 | The concentrated sampling of formation fluid |
| CN102812201A (en) * | 2009-11-13 | 2012-12-05 | 马士基橄榄和气体公司 | Injection Drill Bit |
| CN102812201B (en) * | 2009-11-13 | 2015-07-29 | 马士基橄榄和气体公司 | Inject drill bit |
| CN103790574A (en) * | 2012-11-02 | 2014-05-14 | 中国石油化工股份有限公司 | Probe for measuring formation pressure |
| CN103790574B (en) * | 2012-11-02 | 2016-08-24 | 中国石油化工股份有限公司 | Measure the probe of strata pressure |
| CN106246124A (en) * | 2016-07-29 | 2016-12-21 | 中国石油天然气股份有限公司 | Underground detection system and method thereof |
| CN108756874A (en) * | 2018-06-11 | 2018-11-06 | 中国海洋石油集团有限公司 | A kind of logger and coring and sampling method |
| US11905829B2 (en) | 2020-01-03 | 2024-02-20 | China Oilfield Services Limited | Integrated logging instrument for coring and sampling |
Also Published As
| Publication number | Publication date |
|---|---|
| US7654321B2 (en) | 2010-02-02 |
| CA2594461C (en) | 2011-04-12 |
| GB2459793B (en) | 2010-08-04 |
| GB2445204B (en) | 2009-10-28 |
| US7841406B2 (en) | 2010-11-30 |
| US20100018704A1 (en) | 2010-01-28 |
| FR2911630A1 (en) | 2008-07-25 |
| GB2459793A (en) | 2009-11-11 |
| FR2910926A1 (en) | 2008-07-04 |
| RU2007128524A (en) | 2009-01-27 |
| DE102007036410A1 (en) | 2008-07-03 |
| MX2007009330A (en) | 2009-02-04 |
| CN101210492B (en) | 2013-05-01 |
| US20080156487A1 (en) | 2008-07-03 |
| GB0913605D0 (en) | 2009-09-16 |
| RU2436951C2 (en) | 2011-12-20 |
| GB0712336D0 (en) | 2007-08-01 |
| CA2594461A1 (en) | 2008-06-27 |
| GB2445204A (en) | 2008-07-02 |
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